Claims Analysis
Total Claims: 8
Claim 1
Independent Claim
199 words
Apparatus for converting number representations from one radix to another comprising a plurality of automaton circuits each having an input, a Mealy output and a Moore output, each said automaton circuit being instrumented to operate in accordance with the equation: ##EQU11## where S = Present state of said automaton circuit S* = Next state of said automaton circuit r a = Current radix of said number representation r b = Desired radix of said number representation Z = Said Mealy output of said automaton circuit I O (r a ) O = Weighted input digit of said number representation S f = Final state of said automaton circuit, said final state of said automaton circuit providing said Moore output representation of a digit of said number representation in said desired radix, said automaton circuits being coupled in cascade with said input digits of said number representation being applied in serial fashion to the input of one of said automaton circuits and with the input of each of the remaining of said automaton circuits being coupled to the Mealy output of the preceding one of said automaton circuits, each said automaton circuit comprising a device having r b stable states.
Claim 2
Dependent Claim
199 words
Apparatus for converting number representations from one radix to another comprising a plurality of automaton circuits each having an input, a Mealy output and a Moore output, each said automaton circuit being instrumented to operate in accordance with the equation: ##EQU11## where S = Present state of said automaton circuit S* = Next state of said automaton circuit r a = Current radix of said number representation r b = Desired radix of said number representation Z = Said Mealy output of said automaton circuit I O (r a ) O = Weighted input digit of said number representation S f = Final state of said automaton circuit, said final state of said automaton circuit providing said Moore output representation of a digit of said number representation in said desired radix, said automaton circuits being coupled in cascade with said input digits of said number representation being applied in serial fashion to the input of one of said automaton circuits and with the input of each of the remaining of said automaton circuits being coupled to the Mealy output of the preceding one of said automaton circuits, each said automaton circuit comprising a device having r b stable states.
Claim 3
Dependent Claim
156 words
The apparatus of claim 1 in which said apparatus comprises a binary to BCD converter for integrally valued number representations with said input digits being applied most significant digit first, each said automaton circuit being a ten-state device comprising four J-K flip-flops each having a J and a K input and a Q and a Q output, and a combinational logic circuit connecting said outputs of said J-K flip-flops to the inputs thereof in accordance with the equations: J.sub.1 = Q.sub.2 Q.sub.3 Q.sub.4
K.sub.1 = Q.sub.4
J.sub.2 = Q.sub.3 + Q.sub.1 Q.sub.4
K.sub.2 = Q.sub.3 + Q.sub.4
J.sub.3 = Q.sub.1 Q.sub.4 + Q.sub.1 Q.sub.2 Q.sub.4
K.sub.3 = Q.sub.2 Q.sub.4 + Q.sub.2 Q.sub.4
J.sub.4 = X K.sub.4 = X
Z = Q.sub.1 + Q.sub.2 (Q.sub.3 + Q.sub.4) where X = said input to said automaton circuit and said Moore output = BCD output digit = f(Q 1 , Q 2 , Q 3 , Q 4 ).
Claim 4
Dependent Claim
166 words
The apparatus of claim 1 in which said apparatus comprises a BCD to binary converter for integrally valued number representations with said input digits being applied most significant digit first, each said automaton circuit being a two-state device comprising, a J-K flip-flop having a J and a K input and a Q and a Q output, and a combinational logic circuit responsive to said input of said automaton circuit and to said outputs of said J-K flip-flops for providing signals to said J and K inputs of said J-K flip-flop and for providing said Mealy output of said automaton circuit in accordance with the equationsJ = d K = dA = Qa + Qbc B = Qa + Qac + QbcC = Qb + Qbc + bc D = Qc + Qc where: said Moore output = binary output digit = f(Q) said Mealy output = BCD digit = f(A, B, C, D) said Input to said automaton circuit =BCD digit = f(a, b, c, d).
Claim 5
Dependent Claim
200 words
Apparatus for converting number representations from one radix to another comprising a plurality of automaton circuits eacch having an input, a Mealy ouput and a Moore output, said automaton circuit being instrumented to operate in accordance with the equation: ##EQU12## where: S = Present state of said automaton circuit S* = Next state of said automaton circuit r a = Current radix of said number representation r b = Desired radix of said number representation Z = Said Mealy output of said automaton circuit I - 1 (r a ) - 1 = Weighted input digit of said number representation S f = Final state of said automaton circuit, said final state of said automaton circuit providing said Moore output representative of a digit of said number representation in said desired radix, said automaton circuits being coupled in cascade with said input digits of said number representations being applied in serial fashion to the input of one of said automaton circuits and with the input of each of the remaining of said automaton circuits being coupled to the Mealy output of the preceding one of said automaton circuits, each said automaton circuit comprising a device having r b stable states.
Claim 6
Dependent Claim
200 words
Apparatus for converting number representations from one radix to another comprising a plurality of automaton circuits eacch having an input, a Mealy ouput and a Moore output, said automaton circuit being instrumented to operate in accordance with the equation: ##EQU12## where: S = Present state of said automaton circuit S* = Next state of said automaton circuit r a = Current radix of said number representation r b = Desired radix of said number representation Z = Said Mealy output of said automaton circuit I - 1 (r a ) - 1 = Weighted input digit of said number representation S f = Final state of said automaton circuit, said final state of said automaton circuit providing said Moore output representative of a digit of said number representation in said desired radix, said automaton circuits being coupled in cascade with said input digits of said number representations being applied in serial fashion to the input of one of said automaton circuits and with the input of each of the remaining of said automaton circuits being coupled to the Mealy output of the preceding one of said automaton circuits, each said automaton circuit comprising a device having r b stable states.
Claim 7
Dependent Claim
144 words
The apparatus of claim 4 in which said apparatus comprises a binary to BCD converter for fractionally valued number representations with said input digits being applied least significant digit first, each said automaton circuit being a ten-state device comprising, four J-K flip-flops each having a J and a K input and a Q and a Q output, and a combinational logic circuit connecting said outputs of said J-K flip-flops to the inputs thereof in accordance with the equations J.sub.1 = XQ.sub.2 Q.sub.3
K.sub.1 = X
J.sub.2 = XQ.sub.1 + XQ.sub.1
K.sub.2 = X + Q.sub.3
J.sub.3 = Q.sub.2 K.sub.3 = XQ.sub.2 + XQ.sub.2
J.sub.4 = XQ.sub.3 + XQ.sub.3
K.sub.4 = J.sub.4
Z = Q.sub.4 where x = said input to said automaton circuit and said Moore output = BCD output digit = f(Q 1 , Q 2 , Q 3 , Q 4 ).
Claim 8
Dependent Claim
154 words
The apparatus of claim 4 in which said apparatus comprises BCD to binary converter for fractionally valued number representations with said input digits being applied least significant digit first, each said automaton circuit being a two-state device comprising, a J-K flip-flop having a J and a K input and a Q and a Q output, and a combinational logic circuit responsive to said input of said automaton circuit for providing signals to said J and K inputs of said J-K flip-flop and for providing said Mealy output of said automaton circuit in accordance with the equations:J = a + bc + bd K = JA = ad + bcd B = ad + bc + cdC = ad + abd + bcd D = Q where: said Moore output = binary output digit = f(Q) said Mealy output = BCD digit = f( A,B,C,D) said Input to said automaton circuit = BCDdigit = f(a,b,c,d).